That's just wrong. Virtual particles, with their energy, are created all the time all around you.
The current understanding is that the net energy in the universe is very very close to zero. So whatever issues you have with the Big Bang, you should scratch conservation of energy off the list.
You're sounding like an Intelligent Design proponent, or the usual woo proponent.
I don't believe there is a conspiracy to stifle the plasma theory. If it works better to explain the universe, it will be adopted.
Cool. Attack the messenger
This could last a while.
*sigh*
If you have issues with ANY plasma cosmology publication published in various peer reviewed journals (astrophysics and space science, IEEE transactions on plasma science, astronomy and astrophysics, are the main ones) then please quote it and have a good old laugh. If your correct I'll have a good old laugh about my nativity too. You can even get the laughing hyena out on me if its a genuine whopper of a mistake.
.I'm just saying that we should wait and see how your theory holds up in the scientific community. Normally, if it's any good, it should pass and be accepted.
Playing the victim card doesn't help.
I understand your feelings. The gaps are there to stay. The universe is too big for humans to know everything about. Scientists have filled in a lot of the gaps but there will always be things they don't know about. They will keep trying to understand but from what little I personally know it turns out that the more you learn the more you discover things that you don't know. For every mystery you solve theres another one waiting around the corner.
Current plasma cosmology is in fact "a load of hogwash"Thats why I'll happily say that current plasma cosmology is, in the big picture, just as much a load of hogwash as the big bang theory. Its just the best we can do at the moment to try to understand these titanic questions. And after comparing the two im firmly in the PC crowd.
I agree - the "some sort of omnipotent god" that PC cosmologists are indoctrinated with makes them seem ridiculous.Its far better to come up with a scientific hypothesis to explain the mystery than to fill the mysteries with some sort of omnipotent god you've dreampt up, or been indoctrinated to believe in.
The problem is this. When the Big Bang was first proposed (as a joke by cosmologist fred hoyle "it just went "bang!" everything from nothing" he said, or something similar)
Lerners 2004 review has already been addressed in this thread. It is out of date and mostly wrong.Not my own, I just prefer Plasma Cosmology, as over the years all the predictions it has made based on its starting assumptions and numerous publications have shown with time to be much more accurate than BBT predictions, and plasma cosmology uses drastically less free parameters.
Wrong:Plus PC does not violate any of the basic laws of physics like BBT.
Errors in the "The Big Bang Never Happened"Its predictions for the CMB from plasma filaments are more accurate, it light element abundances predictions based on steller surface plasma properties are many orders of magnitude more accurate, the filamentary plasma origin of large scale structures and the origin of the cosmic microwave background in a "radio fog" of dense plasma filaments have now been demonstrated. It looks like a winner to me.
http://bigbangneverhappened.org/p27.htm
Most main scientific models started off as fringe theories.
Not my own, I just prefer Plasma Cosmology, as over the years all the predictions it has made based on its starting assumptions and numerous publications have shown with time to be much more accurate than BBT predictions
Plus PC does not violate any of the basic laws of physics like BBT.
Based on its superior predictive power
better more scientifically sound starting assumptions
(not solid, liquid, or gas, like was assumed when the Big Bang theory and the standard model for the sun and stars was formulated)
and thus the universe should obey primarily complex plasma physics, dependent on the charge separation in space plasma, not fluid and gas equations that the big bang and solar models are based on.
Based on its superior predictive power, better more scientifically sound starting assumptions and the fact that we now know that 99.99% of the matter in the universe is infact matter in a plasma state (not solid, liquid, or gas, like was assumed when the Big Bang theory and the standard model for the sun and stars was formulated) and thus the universe should obey primarily complex plasma physics, dependent on the charge separation in space plasma, not fluid and gas equations
As noted in previous posts: PC is notably inferior in is predictive power.Based on its superior predictive power, better more scientifically sound starting assumptions and the fact that we now know that 99.99% of the matter in the universe is infact matter in a plasma state (not solid, liquid, or gas, like was assumed when the Big Bang theory and the standard model for the sun and stars was formulated) and thus the universe should obey primarily complex plasma physics, dependent on the charge separation in space plasma, not fluid and gas equations that the big bang and solar models are based on.
WrongThe problem is this. When the Big Bang was first proposed (as a joke by cosmologist fred hoyle "it just went "bang!" everything from nothing" he said, or something similar) the equivalent of a messiah came to answer all these big questions cosmologists had been struggling with for years*.
This implies that you think that BBT describes the orgin of the universe. This is not true.Paradoxical as a beginning in time from nothing is, if you assume this then you can work from there very easily.
The effect was very ordinary. Scientists starting coming over all curious about this issue as scientists do. This is despite you citing a web site full of cherry picked quotes. It ignores the millions of non-religious lines of text that there are about the BBT. Try reading scientific cosmology papers something.The effect was very weird. Scientists starting coming over all religous about this issue*.
Wrong - it is taught as an accepted scientific theory (not fact). In actual fact typical undergraduate classes go through the history of cosmological theories....snipped rant...
Even mention at uni that the Big Bang never happened and you'll be a laughing stock. Its just accepted fact. But show one of the people laughing an alternative explanation for the origin of the CMB by one of the various scientists that have made such models, or one of the better tired light related theories to put inflation into doubt, and they will just go kinda quiet.
So?The Big Bang based projects get billions. Literally billions to send satellites up to study the data in space they have chosen to be significant.
And your evidence that the admins took it down because of their personal opionions about cosmology is?Heres the *uncensored* plasma cosmology Wikipedia. It was taken down by admins at wikipedia that did not like the fact that the big bang had a competing theory that seemed to get far much more right with far simpler ideas.
ABSTRACT
The common attribute of all Big Bang cosmologies is that they are based on the assumption that the universe is expanding. However examination of the evidence for this expansion clearly favours a static universe. The major topics considered are: Tolman surface brightness, angular size, type 1a supernovae, gamma ray bursts, galaxy distributions, quasar distributions, X-ray background radiation, cosmic microwave back-ground radiation, radio source counts, quasar variability and the Butcher–Oemler effect. An analysis of the best raw data for these topics shows that they are consistent with expansion only if there is evolution that cancels the effects of expansion. An alternate cosmology, curvature cosmology, is in full agreement with the raw data. This tired-light cosmology predicts a well defined static and stable universe and is fully described. It not only predicts accurate values for the Hubble constant and the temperature of cosmic microwave background radiation but shows excellent agreement with most of the topics considered. Curvature cosmology also predicts the deficiency in solar neutrino production rate and can explain the anomalous acceleration of Pioneer 10.
Key words: cosmology: observations, large-scale structure of universe, theory
“The possibility - that we are wrong about Newton’s laws, and by extension general relativity - is too scary to contemplate.” (page 15).
Zeuzzz said:So from an experimental viewpoint, Newtons law runs into various problems even right here on Earth. Who knows what problems it faces when extrapolated to the large scale constituents of the universe.
Since gravity was related by Einstein to the geometry of space-time (whatever the hell that physically is) gravity has received support from various tests, such as the perihelion of mercury, and others. However, the following quote from a very popular book on astronomy, is quite remarkable:
Galactic dynamics (page 635)
"It is worth remembering that all of the discussion so far has been based on the premise that Newtonian gravity and general relativity are correct on large scales. In fact, there is little or no direct evidence that conventional theories of gravity are correct on scales much larger than a parsec or so. Newtonian gravity works extremely well on scales of ∼ 10^14cm (the solar system).
(...) It is principally the elegance of general relativity and its success in solar system tests that lead us to the bold extrapolation that the gravitational interaction has the form GM/r2 on the scales 10^21 − 10^26cm..."
[....]
The above cited 'bold extrapolation' of gravity seems to have encountered problems even in the solar system now, with the pioneer and voyager anomalies, so it seems very naive to presume that gravity functions how we currently model it when applied to much larger scales.
Many tests show that gravity obeys an inverse square law in terms of distance, but little work has been done on observations that test the dependence on the field mass, M. Since mass estimates of the whole universe depend on it, determining the absolute value of G is kinda important. The thing is that they all tend to give different values for G, and whereas other (fundamental) constants in nature achieve an accuracy of over 12 decimal places the value of the gravitational constant lags behind with far greater uncertainty, with only about 3-4 decimal places remaining undisputed by various methods. This indicates that we still have a lot to learn about the true nature of gravity.
A lot of work has been done on determining the value of G. What seems lacking however are test which test the spatial and temporal dependence of G, which can also be used to test Newtons law as well. At the atomic level, although you can work out the ratio of electric and gravitational forces at 2.27x1039 (respectively), this has never been measured as particles this size are too light to be used as field masses. Gravity is amazingly illusive at this small scale, and remains so right up to much larger scales. At the standard laboratory scale the torsion balance is the usual method, done usually over a distance of 10 – 30 cm, which is the method used by originally by cavendish, which has changed very little to this day. One further method is by using a superconducting gravimeter and a moving mass (see http://www.iop.org/EJ/abstract/0957-0233/10/6/311).
And that’s about it from methods of determining G directly. We only have direct confirmation of this law over a very small scale range, from laboratory to geological size, it is presumed from this that it applies exactly to all other scales. Other larger scale methods like satellite based experiment’s to find the value of G, such as LLG, are in fact finding the product MEG, using the mass of the Earth, under the presumption it is correct, and other larger scale estimates use generally use the mass of the sun (inferred from the mass of the Earth) to determine G.
Another interesting way to test gravity would be check the dependency of Newtons law on the amount of field mass in question. Which is an idea lacking much experimental verification too. When M = m (in F=GMm/r2) the law becomes symmetric, but a deviation for large masses would not violate the equivalence principle, at least within its experimental constraints which apply mostly to test masses. It is often claimed that any physical theory has to be linear in the weak-field-limit, but this cannot be definitively proven, mainly due to the amazingly weak nature of gravity making tests for this very hard. We just perform an extrapolation of our mathematical methods, which should be tested. There are plenty of ways to test the r2 term in Newtons law, but testing the exponent 1 on M is much more difficult to prove.
Torsion balance experiments typically use masses in the range 5 – 20 Kg, and this is the mass at which we base our most accurate measurements of G. And this mass range goes up to about 107 Kg with lake experiments to measure gravity (see: Determination of the gravitational constant with a lake experiment.), which achieved results close to laboratory values, but not to such a high degree of accuracy. Generally, the more mass is used the less reliable the value becomes. And when you get to the solar system scale satellite data of planetary orbits can not be used to find the field mass dependence of Newtons law (ie, the exponent of M not equal to 1 in F=GMm/r2) as the same data is used to measure the mass. You can use Keplers law to test the validity of the inverse square relationship, but this can not reveal an exponent of M different from 1. This problem stems from not being able to find independent mass estimates of these larger scale objects (apart from some very crude methods with a very high amount of uncertainty), and so from the mass range of the moon \earth (1023 kg) all the way up to sun, no accurate test for this exists. When dealing with the galactic scale (from 1039 to 1044) you run into the same problem of not having independent mass estimates. And this applies to all scales above the solar system. Solar mass to light ratio measurements for galaxies do not fit the dynamically determined mass, and so dark matter is invented to explain this failure of Newton’s law. And right up on the cosmological scale Newtons law fails, and so dark energy is invoked to explain the anomalies. So over time Newtons law has been patched up with numerous ad hoc solutions, but maybe instead of just assuming these entities exist and can explain away everything we should just consider that the law of gravity is plain wrong when applied to large scales. This is where theories like MOND and others come in. And while MOND presents more problems than it solves (in my opinion), it has been very useful in pointing out another problem with Newtons law, that it is poorly tested for accelerations below 10−10ms−2.
I think that it is highly likely that the hierarchy of structures in the universe, the lab, earth, solar system, galactic, cosmic does not stop at the laws that we use in the solar system but requires a corresponding hierarchy of theories. Inventing new entities and new free parameters to simulations will not be sufficient; this type of approach seems to me to be a modern day version of the epicycles of Ptolemy. Extrapolating theories beyond their true testable scope should be avoided, unless we want to walk down the path of ever more complex theories piled up ontop of each other in an attempt to try to hold on to the basic law underlying them all, this type of approach merits a warning from history.
The amount of research that is done in cosmology based on this unverified extrapolation of gravity over some 14 orders of magnitude is quite a remarkable spectacle.
There are considerable gaps in our knowledge about how gravity functions at large scales. Take a look at this graph for example;
http://img502.imageshack.us/img502/6536/gravityvd8.jpg
Generally objects fall into three groups at different scales. The group on the left are the only area where direct absolute measurements of G are possible, from tiny scales up to geological scales. Everything else on this table, from our satellites up to super-massive black holes are extrapolations of Newtons law that remain to be tested, as even the middle group are testing Keplers law rather than Newtons. For the group on the right, none of them offer any sort of undisputable evidence for Newtons law, without having to invoke quantities such as dark matter or energy. To put it simply, tests of the field mass dependence are entirely determined by only 1-2 independent types of experiments on the small scale. The extrapolation to the other larger objects is assumed.
The interesting thing about Maxwells electromagnetism is that it is not like gravity, it is scale invariant. Gravity has no effect on that atomic scale. But it does on the solar scale. And it is assumed to be the only force that can effect even larger scales. But the sheer amount of large scale objects that do not obey Newtons law by their shape and structure, certainly imply that other forces are at work on the large scale. And now we know that plasma is so pervasive in the universe, something not known when most gravitational models were invented back when they thought that space was a void of empty space, EM forces in plasma are the obvious candidate to explain these objects.
And your evidence that the admins took it down because of their personal opionions about cosmology is?
In fact you are wrong. The Plasma cosmology page exists
The previous version of it that you link to seems to have been rejected by the admins because of an editing war between Eric Lerner and other editors.
Main Differences
The main differences in predictions the cosmologies have made are as follows;[26]
Big Bang Theory: The universe has a time of creation. Plasma Cosmology: The universe is assumed infinite in time and constantly evolving. [27]
Big Bang Theory: The universe originated from a highly homogeneous state and will remain largely so in the future. Plasma Cosmology: The universe is filamentary and clumpy. The large scale structure of the cosmos will not be homogeneous but highly filamentary.[28][29]
Big Bang Theory: CMB radiation will be isotropic. Plasma Cosmology: The CMB will not be as isotropic, as the syncrotron scattering process creates an isotropic formation, estimating the GeV of electrons to be inversely proportional to distance in the range 1-400 mpc. And the observed radio luminosity will fall as D-0.36, in excellent agreement with observations.[30]
Big Bang Theory: The anisotropy of the CBR will be random. Plasma Cosmology: The anisotropy of the CBR will show a strong preferred orientation in the sky. Mainly due to magnetic anisotropy which occurs in a plasma, so that its magnetic field is oriented in a preferred direction.[31][32]
Citations:
[26] Lerner, E.J Two world systems revisited: a comparison of plasma cosmology and the Big Bang Plasma Science, IEEE Transactions on, Dec. 2003, Volume: 31, Issue: 6, Part 1, On page(s): 1268- 1275
[27] Hannes Alfven, Cosmology: Myth or Science? J. Astrophys. Astr. (1984) 5, 79–98
[28] E.J. Lerner, "Radio Absorption by the Intergalactic Medium" The Astrophysical Journal, Vol. 361, pp. 63-68, Sept. 20, 1990.
[29] E.J. Lerner, "Confirmation of radio absorption by the intergalactic medium Astrophysics and Space Science (ISSN 0004-640X), vol. 207, no. 1, p. 17-26
[30] E.J. Lerner, "Radio Absorption by the Intergalactic Medium" The Astrophysical Journal, Vol. 361, pp. 63-68, Sept. 20, 1990.
[31] E.J. Lerner, "Magnetic Vortex Filaments, Universal Invariants and the Fundamental Constants" IEEE Transactions on Plasma Science, Special Issue on Cosmic Plasma, Vol. PS-14, No. 6, Dec. 1986, pp. 690-702.
[32] Lerner, Eric J, Intergalactic Radio Absorption and the COBE Data Astrophysics and Space Science, Volume 227, Issue 1-2, pp. 61-81